广东工业大学 自动化学院,广东,广州,510006
鄢壮(2001–) ,男,硕士研究生,主要研究方向为混合动力机车系统建模及其能量管理,E-mail:3485129048@qq.com
谷爱昱(1970–) ,女,教授,博士,主要研究方向为电机及其系统、特种电磁装置,E-mail:1296772438@qq.com,guay@gdut.edu.cn
纸质出版:2026
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鄢壮, 谷爱昱, 倪强, 等. 基于路况参数的混合动力机车能量管理策略研究[J]. 广东工业大学学报, 2026, 43(2): 64-73.
鄢壮, 谷爱昱, 倪强, 等. 基于路况参数的混合动力机车能量管理策略研究[J]. 广东工业大学学报, 2026, 43(2): 64-73. DOI: 10.12052/gdutxb.250115.
为了降低燃油消耗与碳排放,油电混合动力机车是传统内燃机车的主要升级方向。本文首先针对现有柴油发电机模型无法有效描述油电混合动力机车在柴油机负载大于柴油机额定功率的极端情况下的物理过程,提出了一种自适应调节励磁的柴油发电机建模方法。接着为了克服混合动力机车在运行时,典型的能量管理策略均无法实现全工况下的节油性最优的问题,提出了一种基于路况参数的能量管理策略
其基于两种典型能量控制策略在不同工况下的节油性能,得到了不同工况下的最优控制策略,并根据线路图制定工况区间,确定各区间下的最优能量控制策略,最终实现全过程下机车油耗最小。最后,基于Rtlab/dSPACE半实物仿真平台,先对机车自适应调节励磁模型进行验证,然后在燃油消耗和碳排放方面,对本文所制定能量管理策略的合理性进行了验证。实验结果表明,本文所提出的基于路况参数的能量管理策略较传统基于逻辑门限和基于模糊控制的能量管理策略在节油性上分别提高了15.9%和9.6%。
In order to reduce fuel consumption and carbon emissions
hybrid diesel-electric locomotives are the main upgrade direction for traditional diesel locomotives. This research first addresses the issue that existing diesel generator models cannot effectively describe the physical processes of hybrid diesel-electric locomotives under extreme conditions where the diesel engine load exceeds its rated power
and proposes a modeling method for diesel generators with adaptive excitation regulation. Next
to overcome the problem that typical energy management strategies cannot achieve optimal fuel efficiency under all operating conditions for hybrid locomotives
a road condition-based energy management strategy is proposed. Based on the fuel-saving performance of two typical energy control strategies under different operating conditions
the optimal control strategy for each condition is obtained
the operating condition sections are defined according to the track map
and the optimal energy control strategy for each section is determined
ultimately minimizing fuel consumption throughout the entire process. Finally
based on the Rtlab/dSPACE hardware-in-the-loop simulation platform
the proposed adaptive excitation regulation model for locomotives is first validated. Then
the rationality of the proposed energy management strategy is verified in terms of fuel consumption and carbon emissions. Experimental results show that the proposed road condition-based energy management strategy improves fuel efficiency by 15.9% and 9.6% compared with traditional logic threshold-based and fuzzy control-based energy management strategies
respectively.
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